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История

История редактирования генов

От структуры ДНК до первого одобренного препарата на основе CRISPR — открытия, дискуссии и решения, которые привели область к сегодняшнему дню.

23 событий, каждое с указанием источника. Даты — это даты публикации или официального решения, а не даты проведения самой работы.

Эпоха

Foundations

April 1953

The structure of DNA is described

Watson and Crick publish the double helix, using X-ray diffraction data produced by Rosalind Franklin and Maurice Wilkins. The complementary base pairing they describe immediately suggests how genetic information is copied — and is the reason a short RNA guide can find one sequence among three billion letters.

Источник: Nature ↗

1972

Recombinant DNA is created

Paul Berg combines DNA from different sources, opening genetic engineering and prompting the scientific community to convene the 1975 Asilomar conference on self-governance — the template every later biotechnology governance debate has referred back to.

Источник: PNAS ↗

1987

Strange repeats are noticed in bacterial DNA

Yoshizumi Ishino's group in Osaka reports unusual repeated sequences in E. coli while studying an unrelated gene. Nobody knows what they are for, and it will be nearly twenty years before anyone finds out.

Источник: Journal of Bacteriology ↗

2003

The Human Genome Project is completed

After thirteen years and roughly $2.7 billion, the human genome sequence is declared complete. Editing without a reference sequence would be nearly impossible; the cost of sequencing has since fallen by about six orders of magnitude.

Источник: National Human Genome Research Institute ↗

2005

CRISPR spacers are recognised as viral in origin

Francisco Mojica reports that the sequences between CRISPR repeats match bacteriophage DNA, proposing that the arrays are an adaptive immune memory. The paper was rejected by several journals before publication.

Источник: Journal of Molecular Evolution ↗

2007

CRISPR is proved to be a bacterial immune system

Working at a company producing yogurt cultures, Barrangou and Horvath show experimentally that bacteria acquire phage resistance by capturing viral sequence into their CRISPR arrays.

Источник: Science ↗

Эпоха

Early engineering

1996

Zinc finger nucleases are invented

Chandrasegaran's group fuses zinc finger DNA-binding domains to the FokI cutting domain, creating the first programmable gene-editing tool — the beginning of targeted genome editing as a discipline.

Источник: PNAS ↗

2009

The first human gene-editing clinical trial begins

Sangamo's zinc finger nuclease programme disrupts CCR5 in the T cells of people with HIV — the first time a targeted, permanent genetic edit is made in a patient's cells. Three years before CRISPR is shown to be programmable.

Источник: New England Journal of Medicine ↗

2011

TALENs make targeted editing routine

Modular TALE proteins, each repeat recognising one DNA letter, make custom nucleases far easier to design than zinc fingers. They remain in clinical use and are still the route to editing mitochondrial DNA.

Источник: Nature Biotechnology ↗

Эпоха

CRISPR era

June 2012

Cas9 is shown to be programmable

Jinek, Charpentier, Doudna and colleagues demonstrate that Cas9 can be directed to cut chosen DNA by a guide RNA, and engineer the single guide RNA that makes the system practical. Šikšnys publishes closely related work at almost the same time.

Источник: Science ↗

January 2013

CRISPR is shown to work in human cells

Feng Zhang's and George Church's laboratories independently publish CRISPR editing in human cells in the same issue of Science. Within a year the technique is in use in laboratories worldwide.

Источник: Science ↗

2015

The first patient is treated with gene-edited cells

Clinicians at Great Ormond Street Hospital treat an infant with relapsed leukaemia using TALEN-edited donor T cells under compassionate use, after conventional treatment fails. She goes into remission.

Источник: Science Translational Medicine ↗

2016

Base editing is invented

David Liu's laboratory publishes cytosine base editing — changing a single DNA letter chemically, without cutting both strands. Adenine base editors follow in 2017, requiring the directed evolution of an enzyme that does not exist in nature for DNA.

Источник: Nature ↗

November 2018

Gene-edited children are born, to global condemnation

He Jiankui announces the birth of twins from embryos in which CCR5 was edited. There was no unmet medical need, consent was found to be deficient, the editing was mosaic, and the changes are heritable. He is convicted in China and imprisoned. The episode reshapes global governance of the field.

Источник: World Health Organization ↗

2019

Prime editing is invented

Anzalone and Liu publish search-and-replace editing: writing chosen new sequence directly into a site without cutting both strands, in principle covering the large majority of known pathogenic variants.

Источник: Nature ↗

Эпоха

Clinical era

October 2020

The Nobel Prize in Chemistry is awarded for CRISPR

Emmanuelle Charpentier and Jennifer Doudna share the prize for the development of a method for genome editing — eight years after the paper, an unusually short interval for the Nobel committee.

Источник: The Nobel Foundation ↗

June 2021

CRISPR is delivered into a human bloodstream for the first time

Intellia and Regeneron report that NTLA-2001, infused into patients with ATTR amyloidosis, reduced the target protein substantially — the first systemic in vivo administration of CRISPR in humans.

Источник: New England Journal of Medicine ↗

November–December 2023

The first CRISPR medicine is approved

The UK MHRA authorises Casgevy in November 2023 for sickle cell disease and beta thalassemia; the FDA follows in December for sickle cell disease and in January 2024 for thalassemia. Eleven years after the founding paper, gene editing becomes medicine.

Источник: U.S. Food and Drug Administration ↗

2025

A gene-editing medicine is made for a single patient

An infant with severe CPS1 deficiency receives a base editor designed, manufactured and authorised specifically for his own mutation, roughly six months after diagnosis. He improves and is discharged.

Источник: New England Journal of Medicine ↗

2025

Prime editing works in patients

Results from PM359 in chronic granulomatous disease are published: prime-edited stem cells engraft and restore the immune function the patients lacked. The first clinical evidence for the technique.

Источник: New England Journal of Medicine ↗

Late 2025

A death in an in vivo editing trial leads to a clinical hold

A participant in the Phase 3 MAGNITUDE trial develops severe liver injury after dosing and dies. Intellia pauses dosing voluntarily and the FDA imposes a clinical hold on both MAGNITUDE studies; the hold on MAGNITUDE is later lifted. The field's clearest reminder that a permanent treatment cannot be withdrawn.

Источник: Intellia Therapeutics ↗

February 2026

Regulators open a path for one-patient therapies

The FDA reduces the default requirement from two adequate and well-controlled trials to one, and issues draft guidance on individualised therapies for ultra-rare diseases under which improvement in a single participant could, in defined circumstances, support approval.

Источник: Fierce Biotech ↗

2026

In vivo gene editing succeeds in a Phase 3 trial

Intellia reports positive Phase 3 results for lonvoguran ziclumeran in hereditary angioedema — described as the first successful registrational trial of gene editing performed inside the body — with a licence application signalled for the second half of the year.

Источник: Intellia Therapeutics ↗